A piece of copper wire is formed into a single circular loop of radius 11 cm. A magnetic field is oriented parallel to the normal to the loop, and it increases from 0 to 0.65 T in a time of 0.36 s. The wire has a resistance per unit length of 3.1 x 10-2 /m. What is the average electrical energy dissipated in the resistance of the wire?
Find the initial and final flux and use Faraday’s law of
electromagnetic induction to find the EMF. Find the resistance of
the wire and use Ohm’s law to find the current and hence find the
electrical energy as shown below
A piece of copper wire is formed into a single circular loop of radius 11 cm....
A length of 20-gauge copper wire (of diameter 0.8118 mm) is formed into a circular loop with a radius of 26.0 cm. A magnetic field perpendicular to the plane of the loop increases from zero to 18.0 mT in 0.24 s. Find the average electrical power dissipated in the process.
A length of 20-gauge copper wire (of diameter 0.8118 mm) is formed into a circular loop with a radius of 21.0 cm. A magnetic field perpendicular to the plane of the loop increases from zero to 12.0 mT in 0.22 s. Find the average electrical power dissipated in the process.
A length of 20-gauge copper wire (of diameter 0.8118 mm) is formed into a circular loop with a radius of 16.0 cm. A magnetic field perpendicular to the plane of the loop increases from zero to 14.0 mT in 0.24 s. Find the average electrical power dissipated in the process
A length of 20-gauge copper wire (of diameter 0.8118 mm) is formed into a circular loop with a radius of 23.0 cm. A magnetic field perpendicular to the plane of the loop increases from zero to 10.0 mT in 0.22 s. Find the average electrical power dissipated in the process.
A length of 20-gauge copper wire (of diameter 0.8118 mm) is formed into a circular loop with a radius of 26.0 cm. A magnetic field perpendicular to the plane of the loop increases from zero to 11.0 mT in 0.26 s. Find the average electrical power dissipated in the process. answer in W
2. A length of 20-gauge copper wire (of diameter 0.8118 mm) is formed into a circular loop with a radius of 18.0 cm. A magnetic field perpendicular to the plane of the loop increases from zero to 11.0 mT in 0.30 s. Find the average electrical power dissipated in the process. X.037902) W Show my other submissions
1. A circular loop in the plane of the paper lies in a 0.40 T magnetic field pointing into the paper. The resistance of the coil is 2.55 Ω. If the loop's diameter changes from 23.5 cm to 4.00 cm in 0.55 s, what is the average induced current in milli-amps? Ans in mA A length of 20-gauge copper wire (of diameter 0.8118 mm) is formed into a circular loop with a radius of 15.0 cm. A magnetic field perpendicular...
A circular loop of wire having a radius of 9.05 cm carries a current of 0.288 A. A vector of unit length and parallel to the dipole moment of the loop is given by 0.60i – 0.80j. If the loop is located in a uniform magnetic field given by B = (0.522 T) j + (0.386 T)k , find (a) the x-component, (b) the y-component, and (c) the z-component of the torque on the loop and (d) the magnetic potential...
A circular loop of wire having a radius of 8.83 cm carries a current of 0.234 A. A vector of unit length and parallel to the dipole moment of the loop is given by 0.60î – 0.80ĵ. If the loop is located in a uniform magnetic field given by B→ = (0.405 T)î + (0.659 T)k̂, find (a) the x-component, (b) the y-component, and (c) the z-component of the torque on the loop and (d) the magnetic potential energy of...
A circular loop of wire having a radius of 5.94 cm carries a current of 0.280 A. A vector of unit length and parallel to the dipole moment of the loop is given by 0.60i – 0.80j . If the loop is located in a uniform magnetic field given by Upper B = (0.715 T) i + (0.731 T) k find (a) the x-component, (b) the y-component, and (c) the z-component of the torque on the loop and (d) the...